Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A handset device, comprising: a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
A handheld device wirelessly receives status updates from a patient's medical device and sends them to a remote server. It uses two radios: one (first radio transceiver) only works when the device is actively being used to get data from the medical device and the other (second radio transceiver) sends data to the remote server, but only when the device is transitioning to a low-power "sleep" state to save battery. When the device decides to go into the low-power state (because of user inactivity or some other trigger), it uses the second radio transceiver to send the latest medical device data to the server before both radios are shut off in the low-power state.
2. The handset device according to claim 1 , wherein the status information comprises information about the medical condition of the user.
The handheld device described above sends the patient's medical condition data from the medical device to a remote server before it goes to a low power state. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
3. The handset device according to claim 1 , wherein the status information comprises information about the state of the medical device.
The handheld device described above sends the operational status of the medical device from the medical device to a remote server before it goes to a low power state. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
4. The handset device according to claim 1 , wherein, during the transition from the active state to the low power state, a display screen of the handset device is switched off, and remains off while the handset device is in the low power state.
The handheld device described above turns off its screen when transitioning to the low power state, and the screen stays off during the low power state. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
5. The handset device according to claim 1 , wherein the first predetermined condition is a user input to the handset device.
The handheld device described above goes into the low power state because the user interacted with it (e.g., pressed a button). The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
6. The handset device according to claim 1 , wherein the first predetermined condition is the non-use of the handset device for a predetermined period of time.
The handheld device described above goes into the low power state because the user hasn't used it for a certain amount of time. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
7. The handset device according to claim 1 , wherein the first radio transceiver is one of a Bluetooth transceiver or an Advanced Network Technology (ANT) transceiver.
The handheld device described above uses either Bluetooth or ANT (Advanced Network Technology) as the wireless tech to talk to the medical device. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
8. The handset device according to claim 1 , wherein the second radio transceiver is one of a Wireless Fidelity (WiFi) transceiver, a mobile telecommunications network transceiver or a Global System for Mobile (GSM) radio transceiver.
This invention relates to a handset device designed to enhance communication capabilities by incorporating multiple radio transceivers. The device includes a first radio transceiver for primary communication and a second radio transceiver that operates on a different frequency band or communication standard. The second radio transceiver can be a Wireless Fidelity (WiFi) transceiver, a mobile telecommunications network transceiver, or a Global System for Mobile (GSM) radio transceiver. This dual-transceiver configuration allows the handset to switch between different communication networks or standards, improving connectivity in varying environments. The device may also include a controller to manage the operation of the transceivers, ensuring seamless transitions between networks. The invention addresses the need for reliable and flexible communication in environments where a single transceiver may not provide consistent coverage or performance. By supporting multiple communication standards, the handset device ensures uninterrupted connectivity and enhanced user experience.
9. The handset device according to claim 1 , wherein the medical device is a therapeutic product delivery device, and the handset device controls the operation of the therapeutic product delivery device.
The handheld device described above interacts with a medical device that delivers medication, and the handheld can control how much and when the medication is delivered. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
10. The handset device according to claim 9 , wherein the first radio transceiver is used to carry control signals from the handset device to the therapeutic product delivery device to control the amount and/or timing of the delivery of a therapeutic product to the patient.
The handheld device described above uses its first radio (Bluetooth or ANT) to send commands to a therapeutic product delivery device to adjust dosage or timing of delivery. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server. The medical device is a therapeutic product delivery device, and the handset device controls the operation of the therapeutic product delivery device.
11. The handset device according to claim 1 , wherein the medical device is a glucose meter.
The medical device that the handheld device interacts with is a glucose meter. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
12. The handset device according to claim 1 , wherein the first radio transceiver is operable to receive status information from a plurality of medical devices.
The handheld device described above can get data from multiple medical devices, not just one. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
13. The handset device according to claim 1 , wherein the controller is responsive to a second predetermined condition to transition the handset device from the low power state to the active state.
The handheld device described above also has logic to wake up from the low power state and go back to the active state based on some trigger. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
14. The handset device according to claim 13 , wherein the second predetermined condition is a user input to the handset.
The handheld device described above wakes up from the low power state because the user interacted with it (e.g., pressed a button). The handheld device has a controller that is responsive to a second predetermined condition to transition the handset device from the low power state to the active state. The handheld device also has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
15. The handset device according to claim 13 , wherein the second predetermined condition is the handset having been in the low power state for a predetermined time period.
The handheld device described above wakes up from the low power state automatically after it has been in the low power state for a set amount of time. The handheld device has a controller that is responsive to a second predetermined condition to transition the handset device from the low power state to the active state. The handheld device also has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server.
16. The handset device according to claim 15 , wherein the controller is responsive to the handset having been in the low power state for a predetermined time period to transition the handset device from the low power state to the active state, obtain status information from the medical device via the first radio transceiver, and initiate a return transition from the active state to the low power state, wherein during the return transition from the active state to the low power state, the second radio transceiver is used to communicate the status information obtained from the medical device to the remote server.
The handheld device described above periodically wakes up, gets the latest data from the medical device, sends that data to the remote server, and then goes back to sleep. The handheld device has a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state; a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state; and a controller, responsive to a first predetermined condition to transition the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inoperable; wherein, during the transition from the active state to the low power state, the second radio transceiver is used to communicate the status information to the remote server. The controller wakes up from the low power state after a set time, gets data from medical device, and sends the data to the remote server during the transition back to the low power state.
17. A method of synchronising data between a handset device and a remote server, the handset having a first radio transceiver for receiving status information from a medical device worn by a patient, the first radio transceiver being operable only while the handset device is in an active state, and a second radio transceiver for communicating the status information to a remote server, the second radio transceiver being inoperable when the handset device is in the active state, the method comprising the steps of: responsive to a first predetermined condition, transitioning the handset device from the active state to a low power state in which both the first radio transceiver and the second radio transceiver are inactive; and during the transition from the active state to the low power state, communicating the status information to the remote server using the second radio transceiver.
A method for syncing data between a handheld device and a remote server involves putting the device into a low-power state. The device has one radio (first radio transceiver) for getting data from a medical device and another (second radio transceiver) for sending data to the server. The first radio is only on when the device is actively being used, and the second radio is normally off during active use. The method involves automatically sending the medical device data to the remote server using the second radio transceiver only as the device transitions from the active state to the low power state, then turning off both radios to save power.
18. A non-transitory computer-readable medium for storing a program capable of being executed on a processor of a handheld device, which when executed on a data processing device causes the data processing device to perform the steps of claim 17 .
A computer program stored on a storage medium, when run on a handheld device, performs the method of syncing data between the device and a remote server: put the device into a low-power state, using one radio (first radio transceiver) for getting data from a medical device and another (second radio transceiver) for sending data to the server. The first radio is only on when the device is actively being used, and the second radio is normally off during active use. Automatically send the medical device data to the remote server using the second radio transceiver only as the device transitions from the active state to the low power state, then turning off both radios to save power.
Unknown
November 7, 2017
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